Shooting spark simulation device

Abstract

The utility model discloses a shooting spark simulation device. According to the shooting spark simulation device, a concave cavity is formed in an injection seat, an outlet communicated with the concave cavity is formed in a shell, one end of a friction wheel is in transmission connection with a driving piece, the other end of the friction wheel is placed in the concave cavity, an electromagnet is located below the injection seat, a spring piece is arranged on the lower section of an iron core piece in a sleeving mode, a flintstone is installed on the iron core piece, and the iron core piece is arranged on the electromagnet in a penetrating mode. The flintstone extends out of the electromagnet and extends into the concave cavity; when the driving piece drives the friction wheel to rotate and the electromagnet is electrified, the iron core piece is driven to move upwards, so that the friction wheel rubs the flintstone, and sparks are generated and sprayed out along the outlet. The flintstone instantly generates sparks, instantaneity and high efficiency of spark generation are guaranteed, meanwhile, the sparks are directionally sprayed out through the outlet, and the vivid shooting effect is simulated; in addition, the principle of making fire through friction is adopted, spark energy is small, and explosive danger cannot be generated.

Description

Technical Field

[0001] This utility model relates to the field of shooting spark simulation technology, and in particular to a shooting spark simulation device. Background Technology

[0002] In film and television production, stage performances, theme parks, and various experiential entertainment projects, simulated shooting effects are an important means of enhancing the realism of scenes and audience participation. Traditional methods of achieving shooting effects mostly rely on gunpowder explosions or high-pressure gas jets. While these methods can produce relatively realistic sparks and smoke effects, they also have a series of problems that cannot be ignored.

[0003] First, traditional methods are limited by site conditions and safety regulations, making them difficult to apply flexibly in scenarios of different sizes and types. For example, using gunpowder explosions in enclosed or semi-enclosed spaces can not only pose safety hazards but also pollute the site, increasing the difficulty and cost of subsequent cleanup. Furthermore, the high energy of the sparks produced by gunpowder explosions makes it difficult to precisely control their range and intensity, hindering the ability to meet diverse shooting effect requirements and limiting the freedom of creative expression.

[0004] Secondly, from a manufacturing perspective, traditional shooting effect devices are often complex in structure, requiring high-precision processing equipment and cumbersome assembly processes. This not only increases production costs but also extends the production cycle, making it difficult to respond quickly to market demands.

[0005] Furthermore, safety is always a core element that cannot be ignored in the design and application of simulated shooting effects devices. Traditional gunpowder or high-pressure gas devices all pose certain safety risks during transportation, storage, and use, requiring strict management measures and professional operators, which increases the difficulty and cost of operation.

[0006] Finally, considering sustainability and economy, the consumables in traditional methods (such as gunpowder, high-pressure gas, etc.) are expensive and often cannot be recycled after use, which burdens the environment and does not conform to the current green and low-carbon development trend.

[0007] In conclusion, there is an urgent need in the market for a shooting spark simulation device that can overcome the aforementioned shortcomings. This device should be easy to manufacture, flexible in various scenarios, safe and reliable, and have low consumable costs, so as to meet the urgent needs of the film, entertainment and other industries for high-quality and high-efficiency shooting effect simulation. Utility Model Content

[0008] The purpose of this invention is to overcome the shortcomings of the existing technology and provide a shooting spark simulation device.

[0009] To solve the above-mentioned technical problems, the present invention adopts the following technical solution:

[0010] This utility model provides a spark simulating device, comprising: a housing, inside which are disposed a friction wheel, a driving component, a jet base, an electromagnet, a flint, an iron core, and a spring. The jet base has a recessed cavity, and the housing has an outlet communicating with the recessed cavity. One end of the friction wheel is operatively connected to the driving component, and the other end is placed in the recessed cavity. The electromagnet is located below the jet base. The spring is sleeved on the lower section of the iron core. The flint is installed on the iron core, and the iron core passes through the electromagnet, so that the flint extends out of the electromagnet and into the recessed cavity. When the driving component drives the friction wheel to rotate and the electromagnet is energized, it drives the iron core upward, so that the friction wheel rubs against the flint, generating sparks that are ejected along the outlet.

[0011] In one specific embodiment, the housing is further provided with a support base for supporting the iron core component; when the electromagnet is energized, it drives the iron core component to move upward, and the iron core component disengages from the support base; when the electromagnet is de-energized, the spring component rebounds and drives the iron core component to move downward, and the iron core component abuts against the support base.

[0012] In one specific embodiment, the bottom of the iron core is further provided with an annular protrusion, and the bottom of the spring abuts against the annular protrusion.

[0013] In one specific embodiment, the injection seat abuts against the side of the housing where the outlet is provided, so that the cavity and the outlet form a tight fit.

[0014] In one specific embodiment, the outlet is circular in shape.

[0015] In one specific embodiment, a control board is further provided inside the housing, and the driving component and the electromagnet are both electrically connected to the control board.

[0016] In one specific embodiment, a gear switch and a start switch are also provided on the outside of the housing. The gear switch and the start switch are both electrically connected to the control board. The gear switch is used to adjust the speed of the drive component, and the start switch is used to switch the electromagnet between being energized and de-energized.

[0017] In one specific embodiment, a horn component is further provided on the outer side of the housing, and the horn component is electrically connected to the control board.

[0018] In one specific embodiment, an indicator light is also provided on the outside of the housing, and the indicator light is electrically connected to the control board.

[0019] In one specific embodiment, the driving component is a motor, which drives the friction wheel through an output shaft.

[0020] The advantages of this shooting spark simulation device compared to existing technologies are as follows: The friction wheel rotates at high speed under the drive of the driving component. When the electromagnet is energized, the iron core and the installed flint quickly rise and contact the rotating friction wheel. Due to the high-speed friction, the flint instantly generates a spark, ensuring the immediacy and efficiency of spark generation. Simultaneously, the spark is directionally ejected through the outlet, simulating a realistic shooting effect. Furthermore, compared to traditional gunpowder explosions or high-pressure gas injection methods, this device uses the principle of friction-based ignition, resulting in a smaller spark energy and eliminating the risk of explosion. The combination of electromagnet and spring design allows the flint to quickly reset after its action, avoiding overheating or uncontrolled sparks caused by continuous friction and ensuring safety during operation. In addition, by adjusting the rotation speed of the drive component and the energizing time of the electromagnet, the contact frequency and force between the flint and the friction wheel can be precisely controlled, thereby adjusting the frequency and intensity of spark generation to meet the shooting effect requirements in different scenarios. Furthermore, the device's structural design allows for flexible deployment in various environments, making it highly adaptable and suitable for a wide range of applications, including film and television special effects, stage performances, and theme parks.

[0021] The present invention will be further described below with reference to the accompanying drawings and specific embodiments. Attached Figure Description

[0022] To more clearly illustrate the technical solutions in the embodiments of this utility model, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0023] Figure 1 A schematic diagram of the internal structure of the shooting spark simulation device provided by this utility model;

[0024] Figure 2 Cross-sectional view of the shooting spark simulation device provided by this utility model Figure 1 ;

[0025] Figure 3 Cross-sectional view of the shooting spark simulation device provided by this utility model Figure 2 ;

[0026] Figure 4 A partial structural schematic diagram of the shooting spark simulation device provided by this utility model;

[0027] Figure 5 for Figure 4 A schematic diagram of its breakdown. Detailed Implementation

[0028] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0029] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of the present utility model.

[0030] In the description of this utility model, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc., indicating the orientation or positional relationship are based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this utility model and simplifying the description, and are not intended to indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation of this utility model.

[0031] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of this utility model, "a plurality of" means two or more, unless otherwise explicitly specified.

[0032] In this utility model, unless otherwise explicitly specified and limited, the terms "installation," "connection," "joining," and "fixing," etc., should be interpreted broadly. For example, they can refer to a connection, a detachable connection, or an integral part; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0033] In this invention, unless otherwise explicitly specified and limited, "above" or "below" the second feature can include direct contact between the first and second features, or contact between the first and second features through another feature between them. Furthermore, "above," "over," and "on top" of the second feature includes the first feature directly above or diagonally above the second feature, or simply indicates that the first feature is at a higher horizontal level than the second feature. "Below," "below," and "under" the second feature includes the first feature directly below or diagonally below the second feature, or simply indicates that the first feature is at a lower horizontal level than the second feature.

[0034] In the description of this specification, the references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., indicate that a specific feature, structure, material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of the present invention. The illustrative expressions of the above terms in this specification should not be construed as necessarily referring to the same embodiment or example. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples. In addition, those skilled in the art can combine and integrate the different embodiments or examples described in this specification.

[0035] See Figures 1 to 5 The specific embodiment shown in this utility model discloses a shooting spark simulation device, including: a housing 10, wherein the housing 10 is provided with a friction wheel 20, a driving component 30, a jet seat 40, an electromagnet 50, a flint 60, an iron core 70, and a spring 80; the jet seat 40 is provided with a cavity 41, and the housing 10 is provided with an outlet 11 communicating with the cavity 41; one end of the friction wheel 20 is drivenly connected to the driving component 30, and the other end is placed in the cavity 41; the electromagnet 50 is located in the cavity 41. Below the jet base 40, the spring 80 is sleeved on the lower section of the iron core 70, the flint 60 is installed on the iron core 70, and the iron core 70 passes through the electromagnet 50 so that the flint 60 extends out of the electromagnet 50 and into the cavity 41; when the driving member 30 drives the friction wheel 20 to rotate and the electromagnet 50 is energized, it drives the iron core 70 to move upward so that the friction wheel 20 rubs the flint 60, generating sparks that are ejected along the outlet 11.

[0036] Specifically, the friction wheel 20 rotates at high speed under the drive of the drive unit 30. When the electromagnet 50 is energized, the iron core 70 and the installed flint 60 quickly rise and come into contact with the rotating friction wheel 20. Due to the high-speed friction, the flint 60 instantly generates a spark, ensuring the immediacy and efficiency of spark generation. At the same time, the spark is ejected directionally through the outlet 11, simulating a realistic shooting effect. In addition, compared with traditional gunpowder explosions or high-pressure gas injection methods, this device uses the principle of friction-based ignition, resulting in a small spark energy that does not pose an explosive hazard. Furthermore, the combined design of the electromagnet 50 and the spring 80 allows the flint 60 to quickly return to its original position after the action is completed, avoiding overheating or uncontrolled sparks caused by continuous friction, thus ensuring safety during operation. Moreover, by adjusting the rotation speed of the drive unit 30 and the energizing time of the electromagnet 50, the interaction between the flint 60 and the friction wheel 20 can be precisely controlled. The contact frequency and force of the friction wheel 20 adjust the frequency and intensity of spark generation to meet the shooting effect requirements in different scenarios. Furthermore, the device's structural design allows for flexible deployment in various environments, making it highly adaptable and widely applicable to film and television special effects, stage performances, theme parks, and other scenarios. Additionally, the main components, such as the housing 10, friction wheel 20, drive unit 30, and jet base 40, are all standardized, facilitating manufacturing and reducing production costs. Moreover, the connections between components are mostly detachable, simplifying daily maintenance and troubleshooting, thus extending the device's lifespan. Furthermore, the device consumes only one consumable part during operation: the flint 60. Due to the unique nature of the spark generation principle, the consumption of flint 60 is relatively small, reducing operating costs. Finally, as a disposable consumable, the flint 60 is easily recyclable, meeting environmental protection requirements.

[0037] See Figures 1 to 5 As shown, in one embodiment, the housing 10 is further provided with a support base 90, which is used to support the iron core 70; when the electromagnet 50 is energized, it drives the iron core 70 to move upward, and the iron core 70 disengages from the support base 90; when the electromagnet 50 is de-energized, the spring 80 rebounds and drives the iron core 70 to move downward, and the iron core 70 abuts against the support base 90.

[0038] Specifically, the housing 10 has an internal support base 90. The main function of this support base 90 is to provide a stable support surface for supporting the iron core 70 when the electromagnet 50 is not energized. The position of the support base 90 is carefully set to ensure that when the iron core 70 is stationary or in a downward state, its bottom can accurately abut against the support base 90. When the electromagnet 50 receives an energizing signal, it generates an upward magnetic force. This magnetic force is strong enough to overcome the weight of the iron core 70 and the flint 60 on it, as well as the initial elastic force of the spring 80, thereby driving the iron core 70 and the flint 60 upward together. During this process, the iron core 70 gradually detaches from the support of the support base 90, while the spring 80 is gradually compressed due to the upward movement of the iron core 70, storing elastic potential energy. When electromagnet 50 is de-energized, the magnetic force disappears. At this time, spring 80 rebounds rapidly due to the stored elastic potential energy, driving iron core 70 and flint 60 to descend together. During the descent, the bottom of iron core 70 will again abut against support base 90, thus stably stopping the descent. At the same time, spring 80 returns to its extended state, waiting for the next energizing signal from electromagnet 50.

[0039] More specifically, the design of the support base 90 ensures that the iron core 70 has a stable support surface when stationary and in a downward state, preventing the iron core 70 from accidentally moving or tilting due to gravity or external forces, thereby ensuring the stability and accuracy of the shooting spark simulation device. Simultaneously, the coordinated work of the electromagnet 50 and the spring 80 enables precise control of the upward and downward movements of the iron core 70, allowing for fine adjustment of the timing and force of spark generation and ejection. Furthermore, when the electromagnet 50 is energized, it uses electrical energy to generate magnetic force, driving the iron core 70 upward; this process achieves the conversion of electrical energy to mechanical energy. When the electromagnet 50 is de-energized, the spring 80 uses stored elastic potential energy to drive the iron core 70 downward; this process again achieves the conversion of mechanical energy to mechanical energy (i.e., the release of elastic potential energy). This design not only improves energy utilization efficiency but also makes the shooting spark simulation device more energy-efficient and effective during operation. In addition, the design of the support base 90 reduces friction and wear on the iron core 70 during operation, thereby extending the service life of the iron core 70, the flint 60, and the entire spark simulation device. Simultaneously, the coordinated operation of key components such as the support base 90, the electromagnet 50, and the spring 80 significantly reduces the device's failure rate, decreasing the frequency of routine maintenance and repairs, thus lowering maintenance costs.

[0040] See Figures 1 to 5 As shown, in one embodiment, the bottom of the core member 70 is further provided with an annular protrusion 71, and the bottom of the spring member 80 abuts against the annular protrusion 71.

[0041] Specifically, when the core component 70 is installed in the device, the bottom of the spring component 80 abuts tightly against the annular protrusion 71. This design not only provides stable support but also ensures that the spring component 80 maintains the correct orientation and position during compression and rebound, thus avoiding inaccurate operation or malfunctions caused by spring component 80 offset or tilting. When the electromagnet 50 is energized to drive the core component 70 upward, the annular protrusion 71 rises along with the core component 70, while the spring component 80 is gradually compressed, its bottom always remaining in close contact with the annular protrusion 71, ensuring a smooth and uniform compression process. When the electromagnet 50 is de-energized, and the spring component 80 rebounds to drive the core component 70 downward, the annular protrusion 71 similarly guides the core component 70 smoothly back to its original position, while the spring component 80, supported by the annular protrusion 71, returns to its extended state.

[0042] More specifically, the design of the annular protrusion 71 provides a more stable and reliable support surface for the spring 80, preventing potential offset or tilting during compression and rebound. This not only improves the overall stability of the spark simulation device but also ensures the accuracy of the upward and downward movements of the core 70, thereby guaranteeing precise control of spark generation and ejection. Furthermore, because the annular protrusion 71 ensures that the spring 80 maintains the correct orientation and position during compression and rebound, it reduces friction and wear between the spring 80 and surrounding components. This not only extends the service life of the spring 80 but also reduces downtime due to spring 80 failure, improving the reliability and durability of the spark simulation device.

[0043] See Figures 1 to 2 As shown, in one embodiment, the injection seat 40 abuts against the side of the housing 10 where the outlet 11 is provided, so that the cavity 41 and the outlet 11 form a tight fit.

[0044] Specifically, the tight fit between the injection seat 40 and the housing 10 effectively prevents sparks from leaking into the housing 10 through gaps. This not only protects the electronic components and mechanical structures inside the housing 10 from damage by sparks but also ensures the safety and reliability of the shooting spark simulation device during operation. Furthermore, the tight fit between the cavity 41 and the outlet 11 ensures that the sparks are smoothly guided to the outside along a predetermined path. This not only improves the accuracy and stability of spark injection but also makes the shooting spark simulation device more realistic and vivid in simulating shooting effects.

[0045] In one embodiment, the outlet 11 is circular in shape.

[0046] Specifically, the circular outlet 11 has smooth and continuous edges, which helps reduce friction and collision between the sparks and the edges of the outlet 11 during the ejection process. When sparks are ejected from the cavity 41, they are uniformly guided to the external environment along the edges of the circular outlet 11, thus avoiding problems such as uneven spark ejection or directional deviation caused by irregular shapes. Furthermore, the circular outlet 11 is easier to process and manufacture. Compared to complex shapes, circles are easier to achieve using standard machining processes (such as drilling, milling, etc.), which not only reduces production costs but also improves machining efficiency and precision.

[0047] More specifically, the circular outlet 11 design allows the sparks to be ejected more evenly and stably into the external environment. This not only improves the visual effect of the spark simulator but also makes the sparks more realistic and vivid when simulating shooting effects. Furthermore, compared to an irregularly shaped outlet 11, the circular outlet 11 has smoother edges, reducing friction and collisions between the sparks and the edges during ejection. This not only helps protect the internal components of the spark simulator from damage but also extends the device's lifespan. In addition, the circular outlet 11 design simplifies the processing and manufacturing process, reducing production costs. At the same time, because a circle is easier to achieve using standard machining processes, it also improves processing efficiency and precision, ensuring the quality and performance of the spark simulator.

[0048] In one embodiment, the housing 10 is further provided with a control board (not shown in the figure), and the drive unit 30 and the electromagnet 50 are both electrically connected to the control board.

[0049] Specifically, the control board is electrically connected to the drive component 30 and the electromagnet 50 via wires or conductive traces on a circuit board. When an external spark-generating command is input, the control board determines the energizing time and frequency of the electromagnet 50 according to a preset program and parameters. The energizing time of the electromagnet 50 determines the time it takes for the iron core 70 to rise and contact the friction wheel 20, thus affecting the spark generation time. The energizing frequency determines the number of times the electromagnet 50 is energized and de-energized per unit time, thereby affecting the spark generation frequency. By precisely adjusting these two parameters, the control board can achieve fine control over the spark-generating effect.

[0050] More specifically, by precisely controlling the energizing time and frequency of the electromagnet 50 through the control board, the shooting spark simulation device can achieve various shooting spark effects. Key parameters such as spark generation time, frequency, and spray force can be flexibly adjusted according to actual needs, thus meeting different application scenarios and visual effect requirements. Furthermore, the control board's built-in protection mechanism can quickly cut off the power supply in abnormal situations, preventing damage to critical components such as the electromagnet 50 and drive unit 30 due to overcurrent or overheating. This not only improves the safety of the shooting spark simulation device but also extends its service life and reduces maintenance costs. In addition, by precisely controlling the energizing time and frequency of the electromagnet 50, the control board can avoid unnecessary energy waste and reduce the device's energy consumption. Simultaneously, because the control board can precisely control the shooting spark effects, it can reduce the consumption of spark-generating materials, further reducing costs.

[0051] In one embodiment, a gear switch (not shown in the figure) and a start switch (not shown in the figure) are also provided on the outside of the housing 10. The gear switch and the start switch are electrically connected to the control board. The gear switch is used to adjust the rotation speed of the drive member 30, and the start switch is used to switch the electromagnet 50 to be energized or de-energized.

[0052] Specifically, the gear switch is typically designed as a knob or toggle switch, allowing users to select different gears by rotating or toggling it. Each gear corresponds to a different rotational speed of the drive component 30, thus determining the intensity and frequency of the spark jet. When a user selects a gear, the gear switch transmits a corresponding signal to the control board, which then adjusts the rotational speed of the drive component 30 according to preset programs and parameters to meet different spark effect requirements. The start switch is a simple push-button switch used to toggle the energized or de-energized state of the electromagnet 50. When the user presses the start switch, the electromagnet 50 receives power, the iron core 70 moves upward and contacts the friction wheel 20, generating a spark; when the user releases the start switch, the electromagnet 50 loses power, the iron core 70 resets, and the spark jet stops. This simple operation allows users to easily control the generation and cessation of the spark jet. Both switches are electrically connected to the control board via wires or conductive traces on a circuit board, ensuring accurate signal transmission and precise command execution. Meanwhile, to increase the convenience and safety of operation, the gear switch and start switch are usually designed in a position that is easy to access and not easy to accidentally touch in the housing 10.

[0053] More specifically, the gear position switch and start switch allow users to intuitively select the intensity and frequency of the spark, and easily control the generation and cessation of the spark. This operation not only simplifies the process but also improves convenience and accuracy. Furthermore, by adjusting the gear position switch and start switch, users can freely adjust the spark effect according to actual needs, thus meeting the requirements of different scenarios and applications. This flexibility and customizability greatly enhances user experience satisfaction. Additionally, the start switch allows users to quickly cut off the power to the electromagnet 50 when needed, preventing continued spark ejection and potential safety hazards. Simultaneously, the precise control of the gear position switch avoids mechanical failures or damage caused by excessive rotational speed of the drive component 30, improving the safety and reliability of the device.

[0054] In one embodiment, a horn component (not shown in the figure) is also provided on the outer side of the housing 10, and the horn component is electrically connected to the control board.

[0055] Specifically, to further enhance the realism of the simulated shooting, a speaker is added to the outside of the housing 10. This speaker is not an ordinary loudspeaker, but a specially designed and optimized audio output device. It is electrically connected to the control board and can emit realistic shooting sounds according to the control board's instructions. Specifically, the speaker contains one or more audio drive units. These drive units can receive audio signals from the control board and convert them into mechanical vibrations, which in turn drive the surrounding air to generate sound waves, forming the sound that the human body hears. In the shooting spark simulation device, the control board, according to preset programs and parameters, sends corresponding audio signals to the speaker at the same time as the electromagnet 50 is energized to generate a spark, causing it to emit gunshots, explosions, or other sound effects that match the shooting effect.

[0056] More specifically, through the shooting sounds emitted by the speaker, the shooting spark simulator provides a more realistic shooting experience both visually and aurally. This multi-sensory simulation not only enhances the audience's immersion but also opens up broader application prospects for shooting spark simulators in fields such as film and television special effects and gaming entertainment. Furthermore, the realistic shooting sounds stimulate the audience's curiosity and sense of participation, allowing them to become more engaged in the interactive experience of the shooting spark simulator. This interactivity not only increases the entertainment value but also improves audience satisfaction and loyalty to the shooting spark simulator.

[0057] In one embodiment, an indicator light (not shown in the figure) is also provided on the outside of the housing 10, and the indicator light is electrically connected to the control board.

[0058] Specifically, to provide more intuitive indication of operating status and fault alarm functions, indicator lights are added to the outside of the housing 10. These indicator lights are electrically connected to the control board via wires or conductive traces on the circuit board, and can emit different colors of light or flash according to the instructions of the control board to indicate different operating states of the device. Specifically, the indicator lights may include various types, such as LEDs and neon lamps, and are installed in easily observable positions on the housing 10. When the spark simulating device is in normal operating condition, the indicator light may emit a stable green light, indicating that the device is operating normally; when the device malfunctions or requires maintenance, the indicator light may emit a red light and flash to alert the user. Furthermore, the indicator lights can also perform more complex indication functions according to the instructions of the control board. For example, when the device is in standby mode, the indicator light may emit a faint blue light; when the device is charging, the indicator light may emit a yellow light and flash; when the device's battery is low, the indicator light may emit a red light and flash continuously to remind the user to charge it in time.

[0059] In one embodiment, the driving component 30 is a motor, which drives the friction wheel 20 through an output shaft.

[0060] Specifically, the motor, as the driving component 30, is characterized by high efficiency, stability, and reliability. Through the transmission between its output shaft and the friction wheel 20, it ensures that the spark simulation device maintains stable performance during long-term operation. Furthermore, the motor's speed and direction of rotation can be precisely adjusted by controlling the input power supply, enabling the spark simulation device to achieve various spark effects to meet the needs of different users.

[0061] The above embodiments are preferred implementations of this utility model. In addition, this utility model can also be implemented in other ways. Any obvious substitutions without departing from the concept of this technical solution are within the protection scope of this utility model.

Claims

1. A shooting spark simulation device, characterized in that, The device includes: a housing, inside which are disposed a friction wheel, a drive component, a jet base, an electromagnet, a flint, an iron core, and a spring. The jet base has a recessed cavity, and the housing has an outlet communicating with the recessed cavity. One end of the friction wheel is drivenly connected to the drive component, and the other end is placed in the recessed cavity. The electromagnet is located below the jet base. The spring is sleeved on the lower section of the iron core. The flint is installed on the iron core. The iron core passes through the electromagnet, so that the flint extends out of the electromagnet and into the recessed cavity. When the drive component drives the friction wheel to rotate and the electromagnet is energized, it drives the iron core upward, so that the friction wheel rubs against the flint, generating sparks that are ejected along the outlet.

2. The shooting spark simulation device according to claim 1, characterized in that, The housing is further provided with a support base for supporting the iron core component. When the electromagnet is energized, it drives the iron core component to move upward, and the iron core component disengages from the support base. When the electromagnet is de-energized, the spring component rebounds and drives the iron core component to move downward, and the iron core component abuts against the support base.

3. The shooting spark simulation device according to claim 1, characterized in that, The bottom of the iron core component is also provided with an annular protrusion, and the bottom of the spring component abuts against the annular protrusion.

4. The shooting spark simulation device according to claim 1, characterized in that, The injection seat abuts against the side of the housing where the outlet is located, so that the cavity and the outlet form a tight fit.

5. The shooting spark simulation device according to claim 1, characterized in that, The outlet is circular in shape.

6. The shooting spark simulation device according to claim 1, characterized in that, The housing is also equipped with a control board, and the drive unit and the electromagnet are electrically connected to the control board.

7. The shooting spark simulation device according to claim 6, characterized in that, The outer side of the housing is also provided with a gear switch and a start switch. The gear switch and the start switch are both electrically connected to the control board. The gear switch is used to adjust the speed of the drive component, and the start switch is used to switch the electromagnet energized or de-energized.

8. The shooting spark simulation device according to claim 6, characterized in that, The outer side of the housing is also provided with a horn component, which is electrically connected to the control board.

9. The shooting spark simulation device according to claim 6, characterized in that, An indicator light is also provided on the outside of the housing, and the indicator light is electrically connected to the control board.

10. The shooting spark simulation device according to claim 1, characterized in that, The driving component is a motor, which drives the friction wheel through an output shaft.

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